MIT researchers have developed an environmentally-friendly method of generating electricity, reports Michael Casey for FOX News. Casey writes that the “breakthrough is critical because most of the batteries that power everything from smartphones to computers are made of toxic materials like lithium.”
Researchers at the MIT Media Lab have developed a new material, called bioLogic, that alters its shape with changes in humidity and opens ventilation ducts when the wearer starts sweating, writes Olga Kharif for Bloomberg Business.
Prof. Paula Hammond speaks with MSNBC’s Andrea Mitchell about why she feels it's imperative that researchers from different disciplines collaborate on cancer research. Hammond explained funding is needed to bring “scientists, clinicians, technologists together in places like the Koch Institute," where people "work collectively toward a cure.”
In this Reuters video, Ben Gruber examines how MIT researchers are working on developing new treatments for diabetes. "What we developed is basically a new material that acts like an invisibility cloak,” explains Prof. Daniel Anderson. “It coats the cells but allows them to function and live but protects them from the immune system.”
STAT reporter Andrew Joseph writes that MIT scientists have developed a potential new treatment for diabetes. Joseph explains that the new technique could allow healthy insulin-producing cells to be successfully transplanted into patients.
Prof. Paula Hammond speaks with Tom Ashbrook of NPR’s On Point about Vice President Biden’s new cancer initiative. Hammond likens the challenge to “going to the moon and back, it’s creating a permanent space station out there as well that allows us to continue to learn about some of the new approaches.”
Lincoln Lab researcher Albert Swiston speaks on NPR’s All Things Considered about the new sensor developed by MIT researchers that monitors vital signs through the gastrointestinal tract. “There are some bits of information from the body—namely the temperature of the body—that can only be monitored from inside the body,” explains Swiston.
Researchers at MIT and Massachusetts General Hospital have developed an ingestible device that monitors vital signs, reports Dialynn Dwyer of Boston.com. Dwyer explains that the device is a “pill-sized stethoscope with a microphone that, once swallowed, transmits data from inside the body.”
Nidhi Subbaraman reports for BetaBoston that MIT researchers have devised an ingestible microphone that allows doctors to monitor a patient’s vital signs. “A key innovation was developing algorithms that would distinguish important signals…from the noisy gurgling of the gut, and then translate them into numbers a physician can read and understand,” writes Subbaraman.
Researchers at MIT have developed an ingestible sensor that can measure vital signs without any external contact, reports Emily Reynolds for Wired. “The sensor works by using microphones—like ones found in mobile phones—that are able to pick up sound waves from the heart and lungs,” writes Reynolds.
Alexandra Ossola of Popular Science reports on an ingestible sensor that allows doctors to monitor vital signs by listening to the body’s gastrointestinal tract. The device could help treat “chronic illnesses, monitor soldiers in battle, or even help athletes train more effectively,” writes Ossola.
MIT researchers have developed an ingestible sensor that can monitor vital signs, reports Rae Ellen Bichell for NPR. "Trauma patients are a really clear winner here, because we can do vital sign monitoring without touching the skin," says Albert Swiston of Lincoln Laboratory.
MIT researchers have devised a technique for desalinating water, reports Nina Godlewski for Boston.com. “The process, called shock electrodialysis, filters water through a material made of small glass particles,” writes Godlewski. “When an electric current is introduced to the system, the water divides into areas of high or low salt concentration.”
MIT researchers have developed a new hydrogel that is 90 percent water, reports Carmen Drahl for Forbes. The new hrydogel “adheres to surfaces like glass, titanium, aluminum, and ceramics with a toughness approximating that of nature’s interfaces between tendons and bone."
In this BBC News segment, Prof. Robert Langer, winner of the Queen Elizabeth Prize for Engineering, discusses his work exploring how to get the human body to respond to vital drugs. Langer explains that his approach to medicine is to “come up with engineering solutions to different medical problems.”